Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A display method of an interactive LED display device, wherein the interactive LED display device comprises a control terminal, a plurality of LED modules, a plurality of unit information acquisition systems, a plurality of interactive sensors and interactive effective induction systems, the control terminal being connected to the plurality of unit information acquisition systems, each unit information acquisition system being connected to the plurality of LED modules, each LED module being connected to the plurality of interactive effective induction systems, each interactive effective induction system being connected to at least one interactive sensor, wherein the interactive effective induction systems are configured to detect and read the induction values of the interactive sensors, the unit information acquisition systems are configured to acquire the status of the interactive effective induction systems, and the control terminal is configured to read interactive effective data of LED display screens from all the unit information acquisition systems and to transmit the desired display scene to the LED modules for displaying the desired scene; wherein the display method comprising the following steps: Step 001 , constructing a plurality of interactive sensors; Step 002 , transferring induction values to the interactive effective induction systems by the interactive sensors, the interactive effective induction systems detecting and reading the induction values of the interactive sensors; Step 003 , the interactive effective induction systems determining whether the currently received induction values are interactive effective status or not; Step 004 , providing corresponding output status by the interactive effective induction systems; Step 005 , the unit information acquisition systems acquiring the status of the interactive effective induction systems and storing data in their own memories thereof; Step 006 , the control terminal reading interactive effective data of LED display screens from all the unit information acquisition systems; and Step 007 , the control terminal transmitting the desired display scene to the LED modules and controlling displaying of scenes according to the interactive effective data, wherein operation of the interactive effective induction systems comprises the following steps: Step 200 , powering on and starting up the interactive effective induction systems; Step 201 , the interactive effective induction systems performing initialization according to predetermined programs and pre-configuring operation parameters comprising interactive effective thresholds, noise thresholds and filtration means; Step 202 , the interactive effective induction systems updating induction basis values of the interactive effective thresholds according to induction values of the interactive sensors; Step 204 , the interactive effective induction systems detecting and reading the induction values of the interactive sensors; Step 206 , determining whether any interactive effective action is existed or not by comparing read induction values relative to interactive effective thresholds, if not, performing step 203 and then performing step 202 ; if yes, performing step 207 ; Step 203 , pre-configuring the output status to be non-touch status; Step 207 , configuring the output status to be touch status and the interactive effective induction systems starting up timers; and Step 205 , determining whether the touch status is overtime or not, if not, back to step 204 ; if yes, back to step 202 .
An interactive LED display system includes a control terminal, multiple LED modules, unit information acquisition systems, interactive sensors, and interactive effective induction systems. The system detects and processes user interactions to dynamically adjust displayed scenes. Interactive sensors generate induction values, which are read by the interactive effective induction systems. These systems determine if the induction values indicate an interactive event (e.g., touch) by comparing them to preconfigured thresholds, including interactive effective and noise thresholds. If an interaction is detected, the system updates its status to "touch" and starts a timer; if not, it remains in a "non-touch" state. The unit information acquisition systems collect and store the status data from the induction systems. The control terminal reads this data and transmits the appropriate display scene to the LED modules, which then render the scene based on the interaction data. The system continuously updates induction thresholds and filters noise to ensure accurate interaction detection. This method enables real-time, responsive LED displays that adapt to user input.
2. The display method of claim 1 , wherein the operation of the unit information acquisition systems comprises the following steps: Step 300 , powering on and starting up the unit information acquisition systems; Step 301 , the unit information acquisition systems performing initialization according to their own pre-configured programs and distributing output acquisition interrupts for the interactive effective induction systems and arranging respective communication passages according to current demands; Step 302 , the unit information acquisition systems getting into static power down mode and waiting for interrupt wake-up after accomplishing the arrangement of the interrupts; Step 303 , if any output status of the interactive effective induction systems is changed, the unit information acquisition systems capturing the changed output status and triggering respective interrupts; Step 304 , the unit information acquisition systems separately acquiring every interactive effective output status from respective interactive effective induction systems carried in them; Step 305 , the unit information acquisition systems integrating acquired status data and stored in the memories, and then getting into static power down mode; Step 306 , if the control terminal transmits communication request to the unit information acquisition systems, the unit information acquisition systems getting into communication interrupt; and Step 307 , the unit information acquisition systems reporting address data having interactive effective information to the control terminal according to address information incorporated in communication data, if any other interrupt responses are not occurred after the report, the unit information acquisition systems get into static power down mode and wait for next interrupt wake-up.
This invention relates to a display method involving unit information acquisition systems that interact with interactive effective induction systems. The method addresses the need for efficient power management and data acquisition in systems where multiple interactive devices generate status changes that must be monitored and reported to a control terminal. The unit information acquisition systems are initialized upon power-up, executing pre-configured programs to distribute output acquisition interrupts and establish communication pathways based on current demands. After setup, the systems enter a static power-down mode, conserving energy while waiting for interrupt triggers. When an interactive effective induction system changes its output status, the acquisition system captures the change, processes the interrupt, and records the updated status data in memory. The system then returns to power-down mode until another interrupt occurs. If the control terminal requests communication, the acquisition system wakes up, processes the request, and reports address data containing interactive effective information. If no further interrupts are detected, the system returns to power-down mode, ensuring minimal power consumption while maintaining responsiveness to status changes and external requests. This method optimizes energy efficiency and real-time data reporting in interactive display environments.
3. The display method of claim 1 , wherein the operation of the control terminal comprises the following steps: Step 400 , the control terminal starting up programs; Step 401 , pre-configuring parameters with respect to communication and parameters with respect to display scene according to given programs, and arranging timers for transmitting communication requests; Step 402 , the desired display scene being transmitted to the LED modules for displaying the desired scene; Step 403 , waiting for that the timers for transmitting communication requests are up; Step 404 , if one respective timer is up, the control terminal transmitting corresponding communication request and waiting for receiving data reported from corresponding unit information acquisition system; and Step 405 , if the report data from the unit information acquisition system is successfully received, the control terminal analyzing effective data and picking up data segments related to the interactive effective induction, changing or remaining the scene parameters according to the data and preset control programs, and then back to step 402 to control displaying of the scene after accomplishing the arrangement of scene parameters.
This invention relates to a display method for LED modules, particularly for dynamically controlling and updating display scenes based on interactive data. The method addresses the challenge of maintaining synchronized and responsive LED displays in environments where real-time interaction is required, such as digital signage, advertising, or interactive installations. The method involves a control terminal that manages the display process through a series of steps. First, the control terminal starts up programs and pre-configures communication and display scene parameters according to predefined settings. Timers are arranged to schedule communication requests. The desired display scene is then transmitted to the LED modules for display. The control terminal waits for the timers to expire before transmitting communication requests to a unit information acquisition system. Upon receiving data from the system, the control terminal analyzes the data to identify interactive triggers. Based on this analysis, the terminal adjusts or maintains the scene parameters according to preset control programs. The updated scene is then displayed, and the process repeats, ensuring continuous interaction and dynamic updates. This approach enables real-time responsiveness to external inputs, enhancing user engagement and display flexibility.
4. The display method of claim 1 , wherein the transmission of the desired display scene in step 402 is performed through the control terminal to a transmitting card, then to LED units, finally to LED modules.
This invention relates to a display method for controlling LED-based visual displays, particularly addressing the challenge of efficiently transmitting and rendering desired display scenes across distributed LED units and modules. The method involves a control terminal that generates or receives a display scene, which is then transmitted to a transmitting card. The transmitting card processes the scene data and distributes it to multiple LED units, which further relay the data to individual LED modules. Each LED module receives the data and renders the corresponding visual content. The system ensures synchronized and coordinated display across all LED modules, enabling dynamic and large-scale visual presentations. The method optimizes data transmission by leveraging hierarchical communication between the control terminal, transmitting card, LED units, and LED modules, reducing latency and ensuring consistent performance. This approach is particularly useful in applications requiring high-resolution, real-time visual displays, such as digital signage, stage lighting, or large-scale LED screens. The invention improves upon existing systems by streamlining the data flow and enhancing synchronization across distributed LED components.
5. The display method of claim 1 , wherein the interactive effective induction systems are connected to one or more interactive sensors.
This invention relates to display systems that incorporate interactive effective induction systems to enhance user engagement. The technology addresses the problem of static displays that lack dynamic interaction, limiting user engagement and feedback. The system includes interactive sensors that detect user inputs, such as touch, motion, or proximity, and trigger corresponding responses in the display. These sensors are connected to the interactive effective induction systems, which process the inputs and generate visual, auditory, or haptic feedback. The sensors may include touch-sensitive panels, motion detectors, or proximity sensors, depending on the application. The induction systems dynamically adjust display content or behavior based on real-time user interaction, creating a more immersive and responsive experience. The invention improves user engagement by enabling bidirectional communication between the display and the user, making it suitable for applications in advertising, education, gaming, and interactive kiosks. The system ensures seamless integration of sensor inputs with display outputs, enhancing interactivity and adaptability in various environments.
6. The display method of claim 5 , wherein the interactive sensors are physical sensors which are selected from the group consisting of: weight sensors and capacitance sensors.
The invention relates to a display method that enhances user interaction with a display system by incorporating physical sensors. The method addresses the problem of limited or inefficient user interaction with displays, particularly in environments where touchscreens or other conventional input methods are impractical or insufficient. The system includes a display and interactive sensors that detect user presence or input, enabling dynamic adjustments to the display content or functionality based on sensor feedback. The interactive sensors are physical sensors, specifically weight sensors or capacitance sensors. Weight sensors detect physical pressure or weight applied to the display or its surrounding structure, allowing the system to respond to user actions such as pressing or leaning on the display. Capacitance sensors detect changes in electrical capacitance caused by user proximity or touch, enabling touchless or touch-based interactions. These sensors provide input data that the system processes to modify display content, such as adjusting brightness, switching modes, or triggering specific functions. The method ensures robust and intuitive interaction by leveraging the unique capabilities of weight and capacitance sensors, improving usability in various applications, including public displays, kiosks, and interactive installations. The system dynamically adapts to user behavior, enhancing engagement and accessibility.
7. The display method of claim 5 , wherein the unit information acquisition systems, the LED modules, the interactive sensors and the interactive effective induction systems are in conformance with a preset proportion therebetween, the number of the interactive effective induction systems being in proportion to the number of the interactive sensors, the number of the unit information acquisition systems being in proportion to the number of the LED modules, the LED modules being configured to be a plurality of LED display units, all the LED display units constructing a main LED display screen, for displaying a continuous and motion main scene.
This invention relates to a display system designed to enhance interactive visual experiences. The system addresses the challenge of creating dynamic, synchronized displays that respond to user interactions in real-time. The key components include unit information acquisition systems, LED modules, interactive sensors, and interactive effective induction systems. These components are arranged in a preset proportional relationship to ensure optimal performance. The number of interactive effective induction systems is proportional to the number of interactive sensors, while the number of unit information acquisition systems is proportional to the number of LED modules. The LED modules are configured as multiple LED display units that collectively form a main LED display screen. This screen displays a continuous and motion-rich main scene, providing a seamless visual experience. The interactive sensors detect user inputs, and the induction systems process these inputs to trigger corresponding visual effects on the LED display. The proportional arrangement ensures efficient data processing and synchronized display responses, enhancing the overall interactivity and visual coherence of the system. This technology is particularly useful in large-scale interactive installations, digital signage, and immersive entertainment environments where real-time user engagement is critical.
8. The display method of claim 7 , wherein each LED display unit is equipped with one or more interactive sensors and each interactive sensor is separately connected to one or more interactive effective induction systems.
This invention relates to an interactive LED display system designed to enhance user engagement by integrating sensors and induction systems. The system addresses the limitation of traditional static LED displays, which lack real-time interaction capabilities. Each LED display unit is equipped with one or more interactive sensors, such as touch, motion, or proximity sensors, to detect user input. These sensors are separately connected to one or more interactive effective induction systems, which process the sensor data and dynamically adjust the LED display output in response. The induction systems may include processing units, control circuits, or software modules that interpret sensor signals and trigger corresponding visual or lighting effects. This setup allows for localized or distributed interactions, where individual sensors can independently influence specific sections of the display. The system enables applications like interactive advertising, gaming, or public installations where user engagement is critical. The modular design ensures scalability, allowing the addition of more sensors or induction systems as needed. The invention improves upon prior art by providing a more responsive and customizable interactive display solution.
9. The display method of claim 7 , wherein each LED display unit is equipped with a display screen and all the display screens are matched together with one another to form the main LED display screen, the display screens being arranged in an array form, each LED display screen being equipped with one or more interactive sensors.
This invention relates to an LED display system with interactive capabilities. The system addresses the need for large-scale, high-resolution displays that can also respond to user interactions, such as touch or proximity sensing, to enhance user engagement and functionality. The system includes multiple LED display units, each containing a display screen. These display screens are arranged in an array to form a larger main LED display screen. The arrangement ensures seamless integration, providing a unified visual output. Each display unit is equipped with one or more interactive sensors, such as touch or proximity sensors, enabling the system to detect and respond to user inputs. These sensors allow for interactive applications, such as touch-based navigation, gesture recognition, or proximity-based triggers, enhancing the display's functionality beyond static content presentation. The interactive sensors are integrated into the display units, ensuring that the entire main display screen can detect and process user interactions across its surface. This design enables dynamic and responsive user experiences, making the system suitable for applications in advertising, public information displays, interactive kiosks, and entertainment venues. The modular nature of the display units allows for scalability, enabling the construction of displays of various sizes and configurations. The system combines high-resolution visual output with interactive capabilities, providing a versatile solution for modern display needs.
10. The display method of claim 7 , wherein each LED display unit is connected to the control terminal so that the control terminal is able to control the displaying operation of every LED display unit depending on data acquired by the unit information acquisition systems, each LED display unit separately showing its own divided scene in respective LED display screen, the control terminal distributing all the divided scenes to the LED display units and controlling the LED display units to display according to preset or given distribution of the divided scenes.
This invention relates to a distributed LED display system where multiple LED display units are networked to a central control terminal. The system addresses the challenge of managing and synchronizing large-scale LED displays by dividing a display scene into smaller segments, each assigned to a separate LED display unit. Each unit operates independently but in coordination with others to collectively form a unified display. The control terminal collects data from unit information acquisition systems, which may include sensors or user inputs, to dynamically adjust the display content. The terminal distributes the divided scenes to the respective LED display units based on preset configurations or real-time instructions, ensuring synchronized and coherent visual output across the entire display array. The system allows for scalable, modular display setups where individual units can be added, removed, or repositioned without disrupting the overall display functionality. This approach enhances flexibility, maintenance, and adaptability in large-scale LED display applications.
11. The display method of claim 1 , wherein the control terminal is a computer.
A computer-based display method involves dynamically adjusting the display of content on a screen based on user interaction and environmental conditions. The method includes detecting user input, such as touch or gesture commands, and analyzing environmental factors like ambient lighting or device orientation. The system processes this data to determine optimal display parameters, such as brightness, contrast, or screen orientation, and applies these adjustments in real-time. The method also incorporates user preferences and historical interaction patterns to further refine the display settings. The goal is to enhance readability and user experience by adapting the display to the current context without requiring manual adjustments. The system may also include feedback mechanisms to confirm the effectiveness of the applied settings and make further refinements. This approach is particularly useful in environments where lighting conditions or user needs vary frequently, ensuring consistent and comfortable viewing experiences. The method can be implemented in various computing devices, including desktops, laptops, and tablets, to improve usability and accessibility.
12. The display method of claim 1 , wherein the unit information acquisition systems are micro controller units.
This invention relates to a display method for acquiring and displaying unit information using microcontroller units (MCUs). The method addresses the challenge of efficiently collecting and presenting data from multiple units in a system, particularly in environments where real-time monitoring and control are required. The system includes multiple unit information acquisition systems, which are microcontroller units (MCUs), responsible for gathering data from various units. These MCUs process the acquired data and transmit it to a display device. The display device then presents the unit information in a structured format, allowing users to monitor and analyze the data. The method ensures that the MCUs operate independently or in coordination to collect and relay information, enhancing system efficiency and reliability. The use of MCUs provides flexibility in data acquisition, enabling integration with diverse hardware components and supporting scalable deployment across different applications. The invention aims to improve data visibility and system management by leveraging the processing capabilities of MCUs to streamline information flow and display.
13. The display method of claim 1 , wherein a plurality of timers is provided to be cooperative with transmittance of communication requests, if one respective timer is up, the control terminal transmits corresponding communication request and waits for receiving report data from corresponding unit information acquisition system.
This invention relates to a display method for managing communication requests in a system where multiple units need to report data. The problem addressed is the need for an efficient way to coordinate and track communication requests between a control terminal and multiple unit information acquisition systems, ensuring timely data transmission without overwhelming the system. The method involves providing a plurality of timers that work in conjunction with the transmittance of communication requests. Each timer is associated with a specific communication request. When a timer expires, the control terminal sends the corresponding communication request to the appropriate unit information acquisition system. After transmitting the request, the control terminal waits to receive report data from the system. This approach ensures that communication requests are sent at scheduled intervals, improving system efficiency and reliability by preventing data transmission delays or conflicts. The method also includes a mechanism to handle the transmission and reception of data, ensuring that the control terminal can process incoming report data once it is received. This structured approach helps maintain synchronization between the control terminal and the unit information acquisition systems, reducing the risk of data loss or miscommunication. The use of multiple timers allows for flexible scheduling, accommodating different reporting frequencies or priorities among the various units.
14. The display method of claim 1 , wherein each display screen comprises a display panel which is provided with one or more interactive induction films attached to the display panel.
This invention relates to an interactive display system designed to enhance user engagement with digital content. The system addresses the challenge of creating immersive and responsive display interfaces that can dynamically interact with users based on their physical presence or gestures. The core technology involves a display screen featuring a display panel with one or more interactive induction films attached to it. These films enable the display to detect and respond to user interactions, such as touch, proximity, or gestures, without requiring additional hardware like touchscreens or cameras. The interactive induction films are integrated directly onto the display panel, allowing for seamless and precise detection of user inputs. This setup eliminates the need for separate sensors or external devices, simplifying the design while maintaining high responsiveness. The system can be applied in various applications, including advertising displays, interactive kiosks, and smart home devices, where intuitive and engaging user interactions are essential. The invention improves upon traditional display technologies by embedding interaction capabilities directly into the display panel, reducing complexity and enhancing reliability.
15. The display method of claim 14 , wherein the interactive induction films are configured to actively and immediately monitor their own stress at any time and to generate a pressure variation when they are pressed from outer force.
This invention relates to interactive display systems using flexible or deformable films that respond to physical pressure. The technology addresses the challenge of creating dynamic, pressure-sensitive displays that can detect and react to external forces in real time, enabling applications in touch-sensitive interfaces, haptic feedback systems, and adaptive displays. The system includes interactive induction films that actively and continuously monitor their own stress levels. These films are designed to generate a measurable pressure variation when pressed by an external force, allowing the display to detect and respond to user interactions. The films may incorporate sensors or conductive materials that change electrical properties under stress, enabling real-time feedback. The display system processes these pressure variations to determine the location, intensity, and duration of the applied force, which can then be used to trigger visual, tactile, or functional responses. The films are integrated into a display structure, such as a flexible or rigid screen, and can be arranged in layers or patterns to enhance sensitivity and accuracy. The system may also include processing circuitry to analyze the pressure data and adjust the display output accordingly, such as changing displayed content, providing haptic feedback, or enabling gesture recognition. This technology improves user interaction by enabling more intuitive and responsive touch-based interfaces.
16. The display method of claim 14 , wherein the interactive induction films are copper films or copper foil.
This invention relates to display technologies, specifically methods for enhancing interactive displays using conductive films. The problem addressed is improving the responsiveness and durability of touch-sensitive displays, particularly in applications requiring high precision and reliability. The method involves integrating interactive induction films into a display system. These films are conductive and enable touch detection by sensing changes in electrical properties when a user interacts with the display. The films are made from copper films or copper foil, which provide excellent conductivity, ensuring accurate and rapid touch response. Copper's durability also enhances the longevity of the display system, reducing wear and degradation over time. The display system includes a display panel and a touch-sensitive layer. The interactive induction films are positioned between the display panel and the touch-sensitive layer, allowing seamless integration without compromising display quality. The films are patterned or arranged in a grid to detect touch inputs across the entire display surface. When a user touches the display, the films generate electrical signals that are processed to determine touch location and gestures. The use of copper films or foil ensures high conductivity, minimizing signal loss and improving touch accuracy. This is particularly beneficial in high-resolution displays where precise touch detection is critical. The method also allows for flexible design, accommodating various display sizes and shapes. Overall, the invention provides a robust and efficient solution for interactive displays, enhancing both performance and durability.
17. The display method of claim 14 , wherein each interactive sensor comprises a sensor IC which is connected with one respective interactive induction film.
This invention relates to interactive display systems, specifically addressing the challenge of integrating sensor technology with display surfaces to enable touch or proximity-based interactions. The system includes a display panel with multiple interactive sensors distributed across its surface. Each sensor comprises a sensor integrated circuit (IC) connected to a corresponding interactive induction film. The induction film detects user interactions, such as touch or gesture inputs, and converts them into electrical signals processed by the sensor IC. The sensor IC then transmits these signals to a control unit, which interprets the inputs and generates corresponding responses, such as adjusting displayed content or executing commands. The system may also include a calibration mechanism to ensure accurate sensor performance across the display surface. The interactive sensors are designed to operate independently, allowing for precise localization of user interactions. This technology enhances user engagement by enabling intuitive, responsive interactions with digital displays in applications such as touchscreens, interactive kiosks, or smart surfaces. The integration of sensor ICs with induction films ensures reliable detection and processing of user inputs, improving the overall functionality and usability of interactive display systems.
18. The display method of claim 17 , wherein the sensor IC is disposed on the interactive effective PCB board.
This invention relates to display systems with interactive capabilities, specifically addressing the challenge of integrating sensor functionality into display devices to enhance user interaction. The method involves a display system that includes a display panel, a sensor integrated circuit (IC), and a printed circuit board (PCB) designed to support interactive functions. The sensor IC is positioned on the PCB, which is structured to facilitate communication between the display panel and the sensor IC. The PCB includes conductive traces and components that enable the sensor IC to detect user inputs, such as touch or proximity, and relay this data to the display panel for processing. The system may also include additional components, such as a controller, to manage the interaction between the sensor IC and the display panel. The sensor IC is configured to convert physical interactions into electrical signals, which are then processed to generate corresponding responses on the display. This setup ensures seamless integration of sensing capabilities into the display system, improving responsiveness and user experience. The method optimizes the placement and functionality of the sensor IC to ensure efficient signal transmission and accurate input detection.
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December 8, 2020
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